Commit 3f7f047b authored by yiwenshao's avatar yiwenshao

able to decrypt and reencrypt variable length string,haha

parent 51ff0337
/*1. store data as column files, and restore data as plaintext insert query
* 2. plaintext insert query should be able to recover directly
* 3. should be able to used exsisting data to reduce the computation overhead(to be implemented)
*/
#include <stdlib.h>
#include <stdio.h>
#include <string>
#include <map>
#include <iostream>
#include <fstream>
#include <sstream>
#include <vector>
#include <algorithm>
#include "wrapper/reuse.hh"
#include "wrapper/common.hh"
#include "wrapper/insert_lib.hh"
#include "util/constants.hh"
using std::cout;
using std::cin;
using std::endl;
using std::vector;
using std::string;
using std::to_string;
static std::string embeddedDir="/t/cryt/shadow";
char * globalEsp=NULL;
int num_of_pipe = 4;
//global map, for each client, we have one WrapperState which contains ProxyState.
static std::map<std::string, WrapperState*> clients;
//This connection mimics the behaviour of MySQL-Proxy
Connect *globalConn;
/*for each field, convert the format to FieldMeta_Wrapper*/
static void init(){
std::string client="192.168.1.1:1234";
//one Wrapper per user.
clients[client] = new WrapperState();
//Connect phase
ConnectionInfo ci("localhost", "root", "letmein",3306);
const std::string master_key = "113341234";
char *buffer;
if((buffer = getcwd(NULL, 0)) == NULL){
perror("getcwd error");
}
embeddedDir = std::string(buffer)+"/shadow";
SharedProxyState *shared_ps =
new SharedProxyState(ci, embeddedDir , master_key,
determineSecurityRating());
assert(0 == mysql_thread_init());
//we init embedded database here.
clients[client]->ps = std::unique_ptr<ProxyState>(new ProxyState(*shared_ps));
clients[client]->ps->safeCreateEmbeddedTHD();
//Connect end!!
globalConn = new Connect(ci.server, ci.user, ci.passwd, ci.port);
}
//========================================================================================//
fullBackUp gfb;
struct batch{
vector<string> field_names;
vector<int> field_types;
vector<int> field_lengths;
};
batch ggbt;
/*should choose the right decryption onion*/
static
std::shared_ptr<ReturnMeta> getReturnMeta(std::vector<FieldMeta*> fms,
std::vector<FieldMetaTrans> &tfds){
assert(fms.size()==tfds.size());
std::shared_ptr<ReturnMeta> myReturnMeta = std::make_shared<ReturnMeta>();
int pos=0;
//construct OLK
for(auto i=0u;i<tfds.size();i++){
//the order is DET,OPE,ASHE,AGG. other onions are not decryptable!!
int index = getDecryptionOnionIndex(tfds[i]);
if(index==-1) assert(0);
onion o = tfds[i].getChoosenOnionO()[index];
SECLEVEL l = tfds[i].getOriginalFieldMeta()->getOnionMeta(o)->getSecLevel();
FieldMeta *k = tfds[i].getOriginalFieldMeta();
OLK curOLK(o,l,k);
bool use_salt = false;
if(needsSalt(curOLK))
use_salt = true;
addToReturn(myReturnMeta.get(),pos++,curOLK,use_salt,k->getFieldName());
if(use_salt)
addSaltToReturn(myReturnMeta.get(),pos++);
ggbt.field_types.push_back(tfds[i].getChoosenFieldTypes()[index]);
ggbt.field_names.push_back(tfds[i].getChoosenOnionName()[index]);
ggbt.field_lengths.push_back(tfds[i].getChoosenFieldLengths()[index]);
if(use_salt){
ggbt.field_types.push_back(tfds[i].getSaltType());
ggbt.field_names.push_back(tfds[i].getSaltName());
ggbt.field_lengths.push_back(tfds[i].getSaltLength());
}
}
return myReturnMeta;
}
/*init global full backup. */
static
void initGfb(std::vector<FieldMetaTrans> &res,std::string db,std::string table){
vector<string> field_names;
vector<int> field_types;
vector<int> field_lengths;
/*choosen onions should all be included in gfb. salt is also included
it's hard to decide whether a FieldMetaTrans has salt because the senmantic is different from that of FieldMeta.
*/
for(auto &item:res){
for(auto i:item.getChoosenOnionName()){
field_names.push_back(i);
}
for(auto i:item.getChoosenFieldTypes()){
field_types.push_back(i);
}
for(auto i:item.getChoosenFieldLengths()){
field_lengths.push_back(i);
}
if(item.getHasSalt()){
field_names.push_back(item.getSaltName());
field_types.push_back(item.getSaltType());
field_lengths.push_back(item.getSaltLength());
}
}
gfb.field_names = field_names;
gfb.field_types = field_types;
gfb.field_lengths = field_lengths;
//then we should read the vector
std::string prefix = std::string("data/")+db+"/"+table+"/";
for(unsigned int i=0u; i<gfb.field_names.size(); i++) {
std::string filename = prefix + gfb.field_names[i];
std::vector<std::string> column;
if(IS_NUM(gfb.field_types[i])){
// load_num_file_count(filename,column,constGlobalConstants.loadCount);
loadFileNoEscape(filename,column);
}else{
// load_string_file_count(filename,column,gfb.field_lengths[i],constGlobalConstants.loadCount);
loadFileEscape(filename,column,gfb.field_lengths[i]);
}
gfb.annoOnionNameToFileVector[gfb.field_names[i]] = std::move(column);
}
//init another map
for(unsigned int i=0;i<gfb.field_names.size();i++){
gfb.annoOnionNameToType[gfb.field_names[i]] = gfb.field_types[i];
}
}
/*load file, decrypt, and then return data plain fields in the type ResType*/
static ResType load_files(std::string db, std::string table){
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo(embeddedDir);
//get all the fields in the tables.
std::vector<FieldMeta*> fms = getFieldMeta(*schema,db,table);
TableMetaTrans res_meta = loadTableMetaTrans(db,table);
std::vector<FieldMetaTrans> res = res_meta.getFts();
for(unsigned int i=0;i<fms.size();i++){
res[i].trans(fms[i]);
}
//then we should load all the fields available
initGfb(res,db,table);
std::shared_ptr<ReturnMeta> rm = getReturnMeta(fms,res);
vector<string> field_names = ggbt.field_names;
vector<int> field_types = ggbt.field_types;
vector<int> field_lengths = ggbt.field_lengths;
//why do we need this??
create_embedded_thd(0);
rawMySQLReturnValue resraw;
vector<vector<string>> res_field;
for(auto item:field_names){
res_field.push_back(gfb.annoOnionNameToFileVector[item]);
}
//then transform it to ress_fields
unsigned int length = res_field[0].size();
vector<vector<string>> ress_field;
for(unsigned int i=0u;i<length;i++){
vector<string> row;
for(unsigned int j=0u;j<res_field.size();j++){
row.push_back(res_field[j][i]);
}
ress_field.push_back(row);
}
resraw.rowValues = ress_field;
resraw.fieldNames = field_names;
for(unsigned int i=0;i<field_types.size();++i){
resraw.fieldTypes.push_back(static_cast<enum_field_types>(field_types[i]));
}
ResType rawtorestype = rawMySQLReturnValue_to_ResType(false, &resraw);
auto finalresults = decryptResults(rawtorestype,*rm);
return finalresults;
}
static
void local_wrapper(const Item &i, const FieldMeta &fm, Analysis &a,
List<Item> *const append_list) {
//append_list->push_back(&(const_cast<Item&>(i)));
//do not use the plain strategy
std::vector<Item *> l;
const uint64_t salt = fm.getHasSalt() ? randomValue() : 0;
uint64_t IV = salt;
for (auto it : fm.orderedOnionMetas()) {
const onion o = it.first->getValue();
OnionMeta * const om = it.second;
std::string annoOnionName = om->getAnonOnionName();
if(gfb.annoOnionNameToFileVector.find(annoOnionName)!=gfb.annoOnionNameToFileVector.end()){
enum_field_types type = static_cast<enum_field_types>(gfb.annoOnionNameToType[annoOnionName]);
std::vector<std::string> &tempFileVector = gfb.annoOnionNameToFileVector[annoOnionName];
std::string in = tempFileVector.back();
if(IS_NUM(type)){
//std::string in("11");
unsigned int len = annoOnionName.size();
if(len>4u&&annoOnionName.substr(len-4)=="ASHE"){
l.push_back(MySQLFieldTypeToItem(type,in));
}else{
l.push_back( new (current_thd->mem_root)
Item_int(static_cast<ulonglong>(valFromStr(in))) );
}
}else{
//std::string in("hehe");
l.push_back(MySQLFieldTypeToItem(type,in));
}
tempFileVector.pop_back();
//l.push_back(&(const_cast<Item&>(i)));
}else{
l.push_back(my_encrypt_item_layers(i, o, *om, a, IV));
}
}
std::string saltName = fm.getSaltName();
if (fm.getHasSalt()) {
if(gfb.annoOnionNameToFileVector.find(saltName)!=gfb.annoOnionNameToFileVector.end()){
std::vector<std::string> &tempFileVector = gfb.annoOnionNameToFileVector[saltName];
std::string in = tempFileVector.back();
// enum_field_types type = static_cast<enum_field_types>(gfb.annoOnionNameToType[saltName]);
// l.push_back(MySQLFieldTypeToItem(type,in));
l.push_back( new (current_thd->mem_root)
Item_int(static_cast<ulonglong>(valFromStr(in)))
);
tempFileVector.pop_back();
}else{
l.push_back(new Item_int(static_cast<ulonglong>(salt)));
}
}
for (auto it : l) {
append_list->push_back(it);
}
}
int
main(int argc, char* argv[]){
init();
create_embedded_thd(0);
std::string db="tdb",table="student";
std::string ip="localhost";
if(argc==4){
ip = std::string(argv[1]);
db = std::string(argv[2]);
table = std::string(argv[3]);
}
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo(embeddedDir);
schema.get();
const std::unique_ptr<AES_KEY> &TK = std::unique_ptr<AES_KEY>(getKey(std::string("113341234")));
Analysis analysis(db, *schema, TK, SECURITY_RATING::SENSITIVE);
/*choose decryption onion, load and decrypt to plain text*/
ResType res = load_files(db,table);
std::string annoTableName = analysis.getTableMeta(db,table).getAnonTableName();
const std::string head = std::string("INSERT INTO `")+db+"`.`"+annoTableName+"` ";
/*reencryption to get the encrypted insert!!!*/
for(auto &row:res.rows) {
List<List_item> newList;
List<Item> *const newList0 = new List<Item>();
for(auto i=0u;i<res.names.size();i++){
std::string field_name = res.names[i];
FieldMeta & fm = analysis.getFieldMeta(db,table,field_name);
local_wrapper(*row[i],fm,analysis,newList0);
}
newList.push_back(newList0);
std::ostringstream o;
insertManyValues(o,newList);
std::cout<<(head+o.str())<<std::endl;
}
return 0;
}
/*1. store data as column files, and restore data as plaintext insert query
* 2. plaintext insert query should be able to recover directly
* 3. should be able to used exsisting data to reduce the computation overhead(to be implemented)
*/
#include <stdlib.h>
#include <stdio.h>
#include <string>
#include <map>
#include <iostream>
#include <fstream>
#include <sstream>
#include <vector>
#include <algorithm>
#include "wrapper/reuse.hh"
#include "wrapper/common.hh"
#include "wrapper/insert_lib.hh"
#include "util/constants.hh"
using std::cout;
using std::cin;
using std::endl;
using std::vector;
using std::string;
using std::to_string;
static std::string embeddedDir="/t/cryt/shadow";
char * globalEsp=NULL;
int num_of_pipe = 4;
//global map, for each client, we have one WrapperState which contains ProxyState.
static std::map<std::string, WrapperState*> clients;
//This connection mimics the behaviour of MySQL-Proxy
Connect *globalConn;
/*for each field, convert the format to FieldMeta_Wrapper*/
static void init(){
std::string client="192.168.1.1:1234";
//one Wrapper per user.
clients[client] = new WrapperState();
//Connect phase
ConnectionInfo ci("localhost", "root", "letmein",3306);
const std::string master_key = "113341234";
char *buffer;
if((buffer = getcwd(NULL, 0)) == NULL){
perror("getcwd error");
}
embeddedDir = std::string(buffer)+"/shadow";
SharedProxyState *shared_ps =
new SharedProxyState(ci, embeddedDir , master_key,
determineSecurityRating());
assert(0 == mysql_thread_init());
//we init embedded database here.
clients[client]->ps = std::unique_ptr<ProxyState>(new ProxyState(*shared_ps));
clients[client]->ps->safeCreateEmbeddedTHD();
//Connect end!!
globalConn = new Connect(ci.server, ci.user, ci.passwd, ci.port);
}
//========================================================================================//
fullBackUp gfb;
struct batch{
vector<string> field_names;
vector<int> field_types;
vector<int> field_lengths;
};
batch ggbt;
/*should choose the right decryption onion*/
static
std::shared_ptr<ReturnMeta> getReturnMeta(std::vector<FieldMeta*> fms,
std::vector<FieldMetaTrans> &tfds){
assert(fms.size()==tfds.size());
std::shared_ptr<ReturnMeta> myReturnMeta = std::make_shared<ReturnMeta>();
int pos=0;
//construct OLK
for(auto i=0u;i<tfds.size();i++){
//the order is DET,OPE,ASHE,AGG. other onions are not decryptable!!
int index = getDecryptionOnionIndex(tfds[i]);
if(index==-1) assert(0);
onion o = tfds[i].getChoosenOnionO()[index];
SECLEVEL l = tfds[i].getOriginalFieldMeta()->getOnionMeta(o)->getSecLevel();
FieldMeta *k = tfds[i].getOriginalFieldMeta();
OLK curOLK(o,l,k);
bool use_salt = false;
if(needsSalt(curOLK))
use_salt = true;
addToReturn(myReturnMeta.get(),pos++,curOLK,use_salt,k->getFieldName());
if(use_salt)
addSaltToReturn(myReturnMeta.get(),pos++);
ggbt.field_types.push_back(tfds[i].getChoosenFieldTypes()[index]);
ggbt.field_names.push_back(tfds[i].getChoosenOnionName()[index]);
ggbt.field_lengths.push_back(tfds[i].getChoosenFieldLengths()[index]);
if(use_salt){
ggbt.field_types.push_back(tfds[i].getSaltType());
ggbt.field_names.push_back(tfds[i].getSaltName());
ggbt.field_lengths.push_back(tfds[i].getSaltLength());
}
}
return myReturnMeta;
}
/*init global full backup. */
static
void initGfb(std::vector<FieldMetaTrans> &res,std::string db,std::string table){
vector<string> field_names;
vector<int> field_types;
vector<int> field_lengths;
/*choosen onions should all be included in gfb. salt is also included
it's hard to decide whether a FieldMetaTrans has salt because the senmantic is different from that of FieldMeta.
*/
for(auto &item:res){
for(auto i:item.getChoosenOnionName()){
field_names.push_back(i);
}
for(auto i:item.getChoosenFieldTypes()){
field_types.push_back(i);
}
for(auto i:item.getChoosenFieldLengths()){
field_lengths.push_back(i);
}
if(item.getHasSalt()){
field_names.push_back(item.getSaltName());
field_types.push_back(item.getSaltType());
field_lengths.push_back(item.getSaltLength());
}
}
gfb.field_names = field_names;
gfb.field_types = field_types;
gfb.field_lengths = field_lengths;
//then we should read the vector
std::string prefix = std::string("data/")+db+"/"+table+"/";
for(unsigned int i=0u; i<gfb.field_names.size(); i++) {
std::string filename = prefix + gfb.field_names[i];
std::vector<std::string> column;
if(IS_NUM(gfb.field_types[i])){
load_num_file_count(filename,column,constGlobalConstants.loadCount);
}else{
load_string_file_count(filename,column,gfb.field_lengths[i],constGlobalConstants.loadCount);
}
gfb.annoOnionNameToFileVector[gfb.field_names[i]] = std::move(column);
}
//init another map
for(unsigned int i=0;i<gfb.field_names.size();i++){
gfb.annoOnionNameToType[gfb.field_names[i]] = gfb.field_types[i];
}
}
/*load file, decrypt, and then return data plain fields in the type ResType*/
static ResType load_files(std::string db, std::string table){
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo(embeddedDir);
//get all the fields in the tables.
std::vector<FieldMeta*> fms = getFieldMeta(*schema,db,table);
TableMetaTrans res_meta = loadTableMetaTrans(db,table);
std::vector<FieldMetaTrans> res = res_meta.getFts();
for(unsigned int i=0;i<fms.size();i++){
res[i].trans(fms[i]);
}
//then we should load all the fields available
initGfb(res,db,table);
std::shared_ptr<ReturnMeta> rm = getReturnMeta(fms,res);
vector<string> field_names = ggbt.field_names;
vector<int> field_types = ggbt.field_types;
vector<int> field_lengths = ggbt.field_lengths;
//why do we need this??
create_embedded_thd(0);
rawMySQLReturnValue resraw;
// vector<vector<string>> resss_field = loadTableFieldsForDecryption(db,
// table,field_names, field_types, field_lengths);
vector<vector<string>> res_field;
for(auto item:field_names){
res_field.push_back(gfb.annoOnionNameToFileVector[item]);
}
//then transform it to ress_fields
unsigned int length = res_field[0].size();
vector<vector<string>> ress_field;
for(unsigned int i=0u;i<length;i++){
vector<string> row;
for(unsigned int j=0u;j<res_field.size();j++){
row.push_back(res_field[j][i]);
}
ress_field.push_back(row);
}
resraw.rowValues = ress_field;
resraw.fieldNames = field_names;
for(unsigned int i=0;i<field_types.size();++i){
resraw.fieldTypes.push_back(static_cast<enum_field_types>(field_types[i]));
}
ResType rawtorestype = rawMySQLReturnValue_to_ResType(false, &resraw);
auto finalresults = decryptResults(rawtorestype,*rm);
return finalresults;
}
static
void local_wrapper(const Item &i, const FieldMeta &fm, Analysis &a,
List<Item> *const append_list) {
//append_list->push_back(&(const_cast<Item&>(i)));
//do not use the plain strategy
std::vector<Item *> l;
const uint64_t salt = fm.getHasSalt() ? randomValue() : 0;
uint64_t IV = salt;
for (auto it : fm.orderedOnionMetas()) {
const onion o = it.first->getValue();
OnionMeta * const om = it.second;
std::string annoOnionName = om->getAnonOnionName();
if(gfb.annoOnionNameToFileVector.find(annoOnionName)!=gfb.annoOnionNameToFileVector.end()){
enum_field_types type = static_cast<enum_field_types>(gfb.annoOnionNameToType[annoOnionName]);
std::vector<std::string> &tempFileVector = gfb.annoOnionNameToFileVector[annoOnionName];
std::string in = tempFileVector.back();
if(IS_NUM(type)){
//std::string in("11");
unsigned int len = annoOnionName.size();
if(len>4u&&annoOnionName.substr(len-4)=="ASHE"){
l.push_back(MySQLFieldTypeToItem(type,in));
}else{
l.push_back( new (current_thd->mem_root)
Item_int(static_cast<ulonglong>(valFromStr(in))) );
}
}else{
//std::string in("hehe");
l.push_back(MySQLFieldTypeToItem(type,in));
}
tempFileVector.pop_back();
//l.push_back(&(const_cast<Item&>(i)));
}else{
l.push_back(my_encrypt_item_layers(i, o, *om, a, IV));
}
}
std::string saltName = fm.getSaltName();
if (fm.getHasSalt()) {
if(gfb.annoOnionNameToFileVector.find(saltName)!=gfb.annoOnionNameToFileVector.end()){
std::vector<std::string> &tempFileVector = gfb.annoOnionNameToFileVector[saltName];
std::string in = tempFileVector.back();
// enum_field_types type = static_cast<enum_field_types>(gfb.annoOnionNameToType[saltName]);
// l.push_back(MySQLFieldTypeToItem(type,in));
l.push_back( new (current_thd->mem_root)
Item_int(static_cast<ulonglong>(valFromStr(in)))
);
tempFileVector.pop_back();
}else{
l.push_back(new Item_int(static_cast<ulonglong>(salt)));
}
}
for (auto it : l) {
append_list->push_back(it);
}
}
int
main(int argc, char* argv[]){
init();
create_embedded_thd(0);
std::string db="tdb",table="student";
std::string ip="localhost";
if(argc==4){
ip = std::string(argv[1]);
db = std::string(argv[2]);
table = std::string(argv[3]);
}
std::unique_ptr<SchemaInfo> schema = myLoadSchemaInfo(embeddedDir);
schema.get();
const std::unique_ptr<AES_KEY> &TK = std::unique_ptr<AES_KEY>(getKey(std::string("113341234")));
Analysis analysis(db, *schema, TK, SECURITY_RATING::SENSITIVE);
/*choose decryption onion, load and decrypt to plain text*/
ResType res = load_files(db,table);
std::string annoTableName = analysis.getTableMeta(db,table).getAnonTableName();
const std::string head = std::string("INSERT INTO `")+db+"`.`"+annoTableName+"` ";
/*reencryption to get the encrypted insert!!!*/
for(auto &row:res.rows) {
List<List_item> newList;
List<Item> *const newList0 = new List<Item>();
for(auto i=0u;i<res.names.size();i++){
std::string field_name = res.names[i];
FieldMeta & fm = analysis.getFieldMeta(db,table,field_name);
local_wrapper(*row[i],fm,analysis,newList0);
}
newList.push_back(newList0);
std::ostringstream o;
insertManyValues(o,newList);
std::cout<<(head+o.str())<<std::endl;
}
return 0;
}
......@@ -57,29 +57,32 @@ std::string getTestQuery(SchemaInfo &schema, std::vector<FieldMetaTrans> &tfds,
return res;
}
static void write_meta(rawMySQLReturnValue& resraw,std::vector<FieldMetaTrans> &res,string db,string table){
static void write_meta(std::vector<FieldMetaTrans> &res,string db,string table){
TableMetaTrans mf(db,table,res);
mf.set_db_table(db,table);
mf.serialize();
}
static
void write_raw_data_to_files(rawMySQLReturnValue& resraw,std::vector<FieldMetaTrans> &res ,string db,string table){
void write_raw_data_to_files(MySQLColumnData& resraw,std::vector<FieldMetaTrans> &res ,string db,string table){
//write metafiles
write_meta(resraw,res,db,table);
write_meta(res,db,table);
//write datafiles
write_row_data(resraw,db,table);
std::string prefix = std::string("data/") +db+"/"+table+"/";
std::vector<std::string> filenames;
for(auto item:resraw.fieldNames){
item=prefix+item;
filenames.push_back(item);
}
int len = resraw.fieldNames.size();
for(int i=0;i<len;i++){
if(IS_NUM(resraw.fieldTypes[i])){
writeColumndataNum(resraw.columnData[i],filenames[i]);
}else{
writeColumndataEscapeString(resraw.columnData[i],filenames[i],resraw.maxLengths[i]);
}
}
}
static void store(std::string db, std::string table){
......@@ -101,11 +104,11 @@ static void store(std::string db, std::string table){
//generate the backup query and then fetch the tuples
std::string backup_query = getTestQuery(*schema,res,db,table);
rawMySQLReturnValue resraw = executeAndGetResultRemote(globalConn,backup_query);
MySQLColumnData resraw = executeAndGetColumnData(globalConn,backup_query);
//then we should set the type and length of FieldMetaTrans
auto types = resraw.fieldTypes;
auto lengths = resraw.lengths;
auto lengths = resraw.maxLengths;
int base_types = 0;
int base_lengths = 0;
for(auto &item:res){
......
......@@ -2,6 +2,6 @@ OBJDIRS += test_wrapper
##note that xx=*.cc will not expand. wildcard *.cc will include files from other directories.
##%.o will include testall
TESTALL_OBJS := $(patsubst %.cc,$(OBJDIR)/%.o,$(wildcard test_wrapper/*.cc))
TESTALL_EXES := $(patsubst test_wrapper/%.cc,test_wrapper_exe/%,$(wildcard test_wrapper/*.cc))
TESTALL_EXES := $(patsubst test_wrapper/%.cc,mtl/test_wrapper_exe/%,$(wildcard test_wrapper/*.cc))
all: $(TESTALL_OBJS) $(TESTALL_EXES)
#include "wrapper/reuse.hh"
#include <string>
#include <iostream>
#include <vector>
using std::string;
using std::vector;
int main() {
vector<string> inputstr{string("a\n\n\0",4),"b","c"};
writeColumndataEscapeString(inputstr,"datastr",10);
vector<string> resstr;
loadFileEscape("datastr",resstr,10);
vector<string> inputint{"123","234","345","456","567","678"};
writeColumndataNum(inputint,"dataint");
vector<string> resint;
loadFileNoEscape("dataint",resint);
return 0;
}
......@@ -477,7 +477,7 @@ write_row_data(rawMySQLReturnValue& resraw,std::string db,std::string table,std:
/* Write a column of data of the type string in mysql. one line per record.
string should be escaped before being written into the file */
void
writeRowdataEscapeString(const std::vector<std::string> &column,
writeColumndataEscapeString(const std::vector<std::string> &column,
std::string columnFilename,
unsigned int maxLength) {
FILE* dataFileHandler = fopen(columnFilename.c_str(),"w");
......@@ -496,7 +496,7 @@ writeRowdataEscapeString(const std::vector<std::string> &column,
one record per line
*/
void
writeRowdataNum(const std::vector<std::string> &column,
writeColumndataNum(const std::vector<std::string> &column,
std::string columnFilename) {
FILE* dataFileHandler = fopen(columnFilename.c_str(),"w");
const std::string token = "\n";
......
......@@ -231,13 +231,13 @@ loadFileNoEscape(std::string filename,
void
writeRowdataEscapeString(const std::vector<std::string> &column,
writeColumndataEscapeString(const std::vector<std::string> &column,
std::string columnFilename,
unsigned int maxLength);
void
writeRowdataNum(const std::vector<std::string> &column,
writeColumndataNum(const std::vector<std::string> &column,
std::string columnFilename);
......@@ -249,6 +249,3 @@ void
loadFileNoEscapeLimitCount(std::string filename,
std::vector<std::string> &res,int limit);
//Connect * initEmbeddedAndRemoteConnection(std::string ip,int port);
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